crystallographic defect
crystal defect

The understanding of crystal structures is needed to understand crystallographic defects.

This effect is due to crystallographic defects such as dislocations.

The charge generation rate is related to specific crystallographic defects within the depletion region.

Moreover, grinding also creates crystallographic defects at and below the particle surface.

Scientists classify diamonds into four main types according to the nature of crystallographic defects present.

There are a wide variety of crystallographic defects.

The regular patterns are interrupted by crystallographic defects.

Twinning is a phenomenon somewhere between a crystallographic defect and a grain boundary.

In materials science, a dislocation is a crystallographic defect, or irregularity, within a crystal structure.

Surface states and crystallographic defects in the crystal lattice can also play role of deep-level traps.

However, in reality, most crystalline materials have a variety of crystallographic defects, places where the crystal's pattern is interrupted.

Crystallographic defects also affect the tube's electrical properties.

(It can also, instead, involve a crystallographic defect, which performs essentially the same role.)

The electrical conductivity of intrinsic semiconductors can be due to crystallographic defects or electron excitation.

Microstructure: scattering centers include internal surfaces such as grain boundaries, crystallographic defects and microscopic pores.

The complete morphology of a material is described by polymorphism and other variables such as crystal habit, amorphous fraction or crystallographic defects.

Another common type of crystallographic defect is an impurity, meaning that the "wrong" type of atom is present in a crystal.

Colored diamonds contain crystallographic defects, including substitutional impurities and structural defects, that cause the coloration.

Jogs are often very immobile compared to kinks, and require diffusion of crystallographic defects like vacancies or interstitial atoms to climb.

When a large number of crystallographic defects bind these planes together, graphite loses its lubrication properties and becomes what is known as pyrolytic graphite.

A Bjerrum defect is a crystallographic defect which is specific to ice, and which is partly responsible for the electrical properties of ice.

A micropipe, also called a micropore, microtube, capillary defect or pinhole defect, is a crystallographic defect in a single crystal substrate.

A crystal has no spatial uncertainty at all, except for crystallographic defects, and a (perfect) crystal allows us to localize the molecules using the crystal symmetry group.

Such crystallographic defects in diamond may be the result of lattice irregularities or extrinsic substitutional or interstitial impurities, introduced during or after the diamond growth.

These collisions, called electron scattering, are most commonly caused by crystallographic defects, the crystal surface, and random thermal vibrations of the atoms in the crystal (phonons).